
Gallium(III) Chloride is a potent Lewis acid. Researchers utilize this anhydrous compound to study advanced catalytic transformations and as a primary source for gallium thin-film applications.
In the evolving field of catalytic chemistry, the strength and selectivity of a Lewis acid define the efficiency of carbon-carbon bond formation. Specifically, Gallium(III) Chloride functions as an exceptionally potent catalyst for Friedel-Crafts alkylations and acylations, often outperforming traditional aluminum-based halides in specific aromatic substitutions. Additionally, researchers select this molecule as a critical precursor for the synthesis of trimethylgallium, the primary source for Gallium Nitride (GaN) epitaxial growth. Therefore, whether you develop high-power semiconductors or investigate novel organometallic pathways, this compound delivers reliable performance across various industrial conditions.
Zyntex maintains a rigorous moisture-free production and packaging chain to prevent the hydrolysis of this highly hygroscopic salt. Moreover, our quality control team verifies every lot for trace metal impurities to ensure electronic-grade suitability. For instance, we optimize the purity profile to support the use of aqueous gallium chloride solutions in large-scale neutrino detection experiments. As a result, your lab receives a high-purity reagent for advanced studies into isotopic separation and solar neutrino flux measurement.
Modern material science relies on high-quality Gallium halides to drive innovations in aerospace coatings and optoelectronic devices. Because this chloride possesses a documented ability to form stable complexes with organic ligands, it remains a primary focus for studies involving homogeneous catalysis and specialized electrolyte development. Ultimately, Zyntex provides a dependable foundation for your next innovation in chemical synthesis and specialized semiconductor engineering.
This high-purity inorganic chloride is vital for the following research and production sectors:
Engineers use $GaCl_3$ to catalyze Friedel-Crafts reactions and epoxide ring-opening with high regioselectivity.
Researchers include this compound in protocols focused on manufacturing organogallium precursors for GaN/GaAs thin-film deposition.
Biotechnicians and physicists utilize aqueous gallium chloride as a target medium for detecting solar neutrinos via gallium-germanium transformation.
This compound serves as a core reactant for developing ionic liquids and advanced electrolytes for high-density lithium-ion batteries.
| Parameter | Specification Standard |
|---|---|
| Product Name | Gallium(III) Chloride (CAS 13450-90-3) |
| Molecular Formula | $$GaCl_3$$ |
| Purity | 99.9% – 99.999% (Anhydrous) |
| Melting Point | 77.9°C (172.2°F) |
| Appearance | Colorless to White Deliquescent Crystals |
🔬 Scientific Data: For detailed crystal structure, safety, and chemical profiling, consult: PubChem Entry: Gallium Trichloride (External Link)